Electromagnetic Junkyard Cranes: Difference between revisions
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This page seeks to explain the principle behind | compiled by Luke Portera (lportera3) | ||
compiled by Luke Portera (lportera3) | |||
This page seeks to explain the principle behind scanning electron microscopes. | |||
==The Main Idea== | ==The Main Idea== | ||
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===A brief Summary=== | ===A brief Summary=== | ||
Electromagnetic cranes utilize Ampere's Law in order to lift ferromagnetic objects. Ferromagnetic objects have unpaired electrons that align themselves with the magnetic field that they are exposed to which causes. The magnetic field, in turn, applies a force to the ferromagnetic objects. Electromagnetic cranes take advantage of this phenomenon by utilizing Ampere's law in order to create the magnetic field that exerts an attractive force on the ferromagnetic objects. | |||
===A Mathematical Model=== | ===A Mathematical Model=== | ||
Latest revision as of 21:16, 5 December 2015
compiled by Luke Portera (lportera3)
compiled by Luke Portera (lportera3)
This page seeks to explain the principle behind scanning electron microscopes.
The Main Idea
A brief Summary
Electromagnetic cranes utilize Ampere's Law in order to lift ferromagnetic objects. Ferromagnetic objects have unpaired electrons that align themselves with the magnetic field that they are exposed to which causes. The magnetic field, in turn, applies a force to the ferromagnetic objects. Electromagnetic cranes take advantage of this phenomenon by utilizing Ampere's law in order to create the magnetic field that exerts an attractive force on the ferromagnetic objects.
A Mathematical Model
The main laws that an electromagnetic crane utilizes are Ampere's Law and For example [math]\displaystyle{ {\frac{d\vec{p}}{dt}}_{system} = \vec{F}_{net} }[/math] where p is the momentum of the system and F is the net force from the surroundings.
A Computational Model
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